Nanoelectronic Scaling Tradeoffs: What does Physics Have to Say?
23 Sep 2003 | Presentation Materials | Contributor(s): Victor Zhirnov
Beyond CMOS, several completely new approaches to information-processing and data-storage technologies and architectures are emerging to address the timeframe beyond the current SIA International Technology Roadmap for Semiconductors (ITRS). A wide range of new ideas have been proposed for...
Quantum-dot Cellular Automata
24 Nov 2003 | Online Presentations | Contributor(s):
The multiple challenges presented by the problem of scaling transistor sizes are all related to the fact that transistors encode binary information by the state of a current switch. What is required is a new paradigm, still capable of providing general purpose digital computation, but which can...
Digital Electronics: Fundamental Limits and Future Prospects
20 Jan 2004 | Online Presentations | Contributor(s):
I will review some old and some recent work on the fundamental (and not so fundamental) limits imposed by physics of electron devices on their density and power consumption.
Nanotechnology-Enabled Direct Energy Conversion
25 Mar 2005 | Online Presentations | Contributor(s): Gang Chen
Energy transport in nanostructures differs significantly from macrostructures because of classical and quantum size effects on energy carriers such as on phonons, electrons, photons, and molecules. Nanoscale effects can be tailored to develop more efficient direct energy conversion technologies...
Designing Nanocomposite Materials for Solid-State Energy Conversion
10 Nov 2005 | Online Presentations | Contributor(s):
New materials will be necessary to break through today's performance envelopes for solid-state energy conversion devices ranging from LED-based solid-state white lamps to thermoelectric devices for solid-state refrigeration and electric power generation. The combination of recent materials...
04 Jun 2008 | Online Presentations | Contributor(s): Ian Appelbaum
"Electronics" uses our ability to control electrons with electric fields via interaction with their fundamental charge. Because we can manipulate the electric fields within semiconductors, they are the basis for microelectronics, and silicon (Si) is the most widely-used semiconductor for...